QUANTUM INTERACTION CONTROL SYSTEM

• US 20080183314A1
• Filed: 01/30/2007
• Published: 07/31/2008
• Est. Priority Date: 01/30/2007
• Status: Abandoned Application

• Current Assignee: Interchange Laboratories, Inc.
• Original Assignee: Interchange Laboratories, Inc.
• Inventors: Plotke, Robert J., Klouzal, Theodore J.
• Application Number:
  US11/669,069
• Publication Number:
  US 20080183314A1
• Time in Patent Office: Days
• US Class Current: 700/90
• CPC Class Codes: A61B 5/245 specially adapted for magnetoencephalographic [MEG] signals
• CPC Class Codes: B82Y 10/00 Nanotechnology for information processing, storage or transmission, e.g. quantum computing or single electron logic
• CPC Class Codes: G06N 10/00 Quantum computing, i.e. information processing based on quantum-mechanical phenomena

Abstract

A quantum interface control system for manipulating, evaluating, modulating, and responding to characteristic changes in a matrix of two or more stochastic generators when influenced by other external stochastic generators, such as mental or thought field energy is provided. The QICS device includes two or more quantum source generators, a quantum pattern processor, and a feedback controller. In operation the QICS provides an interface between quantum form-information created by a mental or thought energy, and one or more corresponding physical states as expressed through temporal constraints defined by perception, movement, and communication. The QICS recognizes and utilizes the phenomenon that quantum generators capable of producing quantum form-information, such as mental energy or other stochastic resonators inherently respond to quantum form-information of one another and additionally imprint quantum form-information onto each other.

Claims

1. A quantum interface control system comprising:

at least two quantum source generators each in communication proximity to form a collective quantum source generation matrix, said quantum source generation matrix producing a combined random noise output signal;

a quantum pattern processor in signal communication with said quantum source generation matrix and being designed to operate on the random noise output from said quantum source generation matrix to extract at least one piece of quantum form-information therefrom, said quantum form-information being characteristic of the interactions between the at least two individual quantum source generators; and

a feedback controller in signal communication with the quantum pattern processor and being designed to identify at least one characteristic resonant pattern in the extracted quantum form-information and communicate said at least one pattern to said quantum pattern processor to modulate the quantum pattern processor in extracting further quantum form-information from the quantum source generation matrix.

2. The quantum interface control system of claim 1, wherein the at least two quantum source generators are stochastic resonators.

3. The quantum interface control system of claim 2, wherein the stochastic resonators are selected from the group consisting of:

electronic, radioactive, and chemical sources.

4. The quantum interface control system of claim 1, wherein the quantum form-information contains data characteristic of the time domain, the frequency domain, correlation and coherence.

5. The quantum interface control system of claim 1, wherein the quantum pattern processor produces the quantum form-information by first extracting at least one nodal characteristic from the output of the quantum source generation matrix, the at least one nodal characteristic describing at least one resonance characteristic between the outputs of the at least two quantum source generators that manifests outside the random noise background of said outputs.

6. The quantum interface control system of claim 5, wherein the quantum pattern processor produces said quantum form-information by further processing all combinations of two or more nodal characteristics to produce at least one intersectional characteristic, the at least one intersectional characteristic describing the at least one resonance characteristic between the nodal characteristics and providing information one of either a temporal or phase constraint of the system.

7. The quantum interface control system of claim 6, wherein the quantum pattern processor produces said quantum form-information by further processing all combinations of two or more intersectional characteristics to determine at least one discrete temporal or phase state of the system.

8. The quantum interface control system of claim 1, further comprising at least one physical responder sub-system, said physical responder sub-system including:

a physical responder capable of interacting with the external environment;

a controller in signal communication between the quantum pattern processor and the physical responder and designed to convert the quantum form-information from the quantum pattern processor into at least one control signal for controlling the operation of the physical responder; and

at least one response sensor in signal communication with the physical responder and being capable of sensing at least one characteristic of either an internal or external condition of the physical responder.

9. The quantum interface control system of claim 8, wherein the physical responder is a device selected from the group consisting of an artificial limb, an electronic display, or other physical control device.

10. The quantum interface control system of claim 8, wherein the physical responder is self-replicating.

11. The quantum interface control system of claim 8, further comprising at least one safety sub-system, said safety sub-system including:

a response feedback processor in signal communication with the at least one response sensor and being designed to compare signals from said at least one response sensor to at least one pre-defined safety threshold parameter and at least one energy optimization parameter to determine whether the physical responder is operating within safety and energy efficiency limits, the response feedback processor being in further signal communication with the feedback controller to provide the safety and energy optimization information to the quantum pattern processor;

a safety threshold controller in signal communication between the response feedback processor and the physical responder, and being designed to control the physical responder to prevent the physical responder from exceeding the limits defined by the pre-defined safety threshold and energy optimization parameters.

12. The quantum interface control system of claim 11, further comprising an input/output port designed to allow the programming of the pre-defined safety threshold and energy optimization parameters.

13. The quantum interface control system of claim 8, further comprising at least one memory sub-system, said memory sub-system including:

a buffer memory in signal communication with the quantum pattern processor and being designed to store quantum form-information from the quantum pattern processor for a single task cycle;

a multiple task memory in signal communication with the buffer memory and being designed to store quantum form-information for at least two task cycles;

a task memory processor in signal communication with the multiple task memory and being designed to determine at least one optimized quantum form-information parameter by comparing the quantum form-information from the at least two task cycles with a pre-defined task coherence parameter to select the at least one quantum form-information parameter that provides superior characteristics in the time and frequency domains for a quality selected from the group consisting of coherence, consistency, uniformity, or regularity;

an optimized memory in signal communication with said task memory processor and being designed to store the at least one optimized quantum form-information parameter; and

a quantum memory controller in signal communication between said optimized memory and the quantum pattern processor such that the at least one optimized quantum form-information parameter can be used by the quantum pattern processor to enhance those quantum form-information characteristics capable of optimizing the task completion behavior of the system.

14. The quantum interface control system of claim 13, further comprising an input/output port designed to allow the programming of the predefined task coherence parameter.

15. The quantum interface control system of claim 13, further comprising an input/output port designed to allow the programming of a predefined quantum form-information optimization parameter.

16. The quantum interface control system of claim 13, further comprising at least one task management sub-system, said task management sub-system including:

a task discriminator in signal communication with said response sensor and being designed to compare signals from said at least one response sensor to pre-defined task completion information to determine whether the physical responder is operating in a manner congruent with task completion; and

a reset buffer memory in signal communication between the task discriminator and the buffer memory, said reset buffer memory designed to clear the buffer memory when signaled by the task discriminator that a task has been completed.

17. The quantum interface control system of claim 16, further comprising an input/output port designed to allow the programming of the predefined task completion information parameter.

18. The quantum interface control system of claim 8, further comprising an input/output sub-system comprising:

an external and block input/output design in signal communication with at least one component input/output within the quantum interface control system;

an input/output communication processor in signal communication with the external and block input/output and being design to process and evaluate the characteristics of the signal from the external and block input/output; and

an input/output communication port in signal communication between the input/output processor and the external and block input/output such that the processed signals are sent to the appropriate component input/output.

19. A method of providing a quantum interaction control comprising the steps of:

producing two or more quantum signals;

manipulating the quantum signals to obtain at least one digital value characteristic of each of the quantum signals;

evaluating and modulating the quantum signals to obtain quantum form-information, the quantum form-information containing information about at least one discrete temporal and phase state that produce the greatest direct and harmonic resonance between the two or more quantum signals;

providing a feedback signal to the two or more quantum signal sources containing the quantum form-information.

20. The method of claim 19, further comprising determining a pattern match by comparing the at least one digital value signal characteristic to at least one digital pattern.

21. The method of claim 20, wherein the at least one digital pattern is stored in a memory.

22. The method of claim 20, wherein the at least one digital pattern is a user input data field.

23. The method of claim 19, wherein the step of evaluating and modulating further comprises:

determining a plurality of nodal characteristics by evaluating all resonant combinations of the two or more quantum signals;

determining a plurality of intersectional characteristics by evaluating all resonant combinations of the plurality of nodal characteristics; and

determining at least one discrete temporal and phase state by processing all resonant combinations of the plurality of intersectional characteristics.

24. The method of claim 19, further comprising forming a matrix of four or more quantum resonators;

and

communicating quantum-form information between said quantum resonators by using direct quantum responsiveness and influence.

25. The method of claim 19, further comprising defining and categorizing an external signal source by measuring a quantum resonance characteristic for said external signal source.

26. The method of claim 25, wherein the information developed during the defining and categorizing step is then used to map, store, and navigate an external environment.